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ProofNUMBER 1OF Only1 AUTHOR QUERIES DATE 8/17/2009 JOB NAME NAUTI ARTICLE 0917 QUERIES FOR AUTHOR Marco Taviani et al. THIS QUERY FORM MUST BE RETURNED WITH ALL PROOFS FOR CORRECTIONS Proof Only THE NAUTILUSProof 123(3):1–7, 2009 Only Page 1 Coralliophilinae (Gastropoda: Muricidae) associated with deep-water coral banks in the Mediterranean Marco Taviani Mark Dimech Constantine Mifsud Lorenzo Angeletti University of Malta, St. Venera, Shepherds Street, Rabat RBT 02, ISMAR-CNR, Via Gobetti 101 MALTA MALTA 40129 Bologna, ITALY [email protected] [email protected] [email protected] [email protected] Andre´ Freiwald M.G. Harasewych Marco Oliverio GZN-Geozentrum Nordbayern National Museum of Natural History, Dipartimento di Biologia Animale University of Erlangen, Smithsonian Institution e dell’Uomo GERMANY P.O. Box 37012 “La Sapienza” Rome University [email protected] Washington, DC 20013-7012 USA Viale dell’Universita` 32, [email protected] I-00185 Roma, ITALY [email protected] ABSTRACT Unravelling the interactions between cnidarians and their predators is essential for a better understanding Fisheries and scientific investigations of the recently discov- of the ecology of deep-water coral banks. Top preda- ered deep-water coral province south of Malta sampled living tors of cnidarians include gastropods belonging to the specimens of two deep-water Coralliophilinae intimately asso- ciated with Lophelia-Madrepora coral banks. The species are families Ovulidae, Epitoniidae, Janthinidae, Muricidae- ‘Coralliophila’ richardi (Fischer P., 1882) and Babelomurex Coralliophilinae, and Architectonicidae (Graham, 1985; sentix (Bayer, 1971). A third coralliophilinid ‘Coralliophila’ Oliverio, 1989; Bieler & Petit, 2005; Schiaparelli et al., squamosa (Bivona Ant. in Bivona And., 1838: deep-water mor- 2005; Gittenberger, 2006, with references). However, photype) has been also observed alive close to deep-water there are few documented reports of gastropod preda- corals at the Nameless-Urania Bank. tion on Mediterranean deep-water corals due to: (1) the Additional keywords:, Neogastropoda, XXXXX relative paucity of deep-water corals living in this basin, (2) the rarity of most coral-associated gastropod taxa, and (3) the inherent difficulties in imaging or sampling these deep-water habitats. Maltese, Italian, and German oceanographic cruises INTRODUCTION (Figure 1), sampled three rare deep-water Coralliophili- F1 dwc Deep-water coral ecosystems are receiving increasing nae at deep-water coral ( ) sites in the Strait of Sicily: ‘Coralliophila’ richardi (Fischer P., 1882), Babelomurex attention from the scientific community as biodiversity sentix ‘Coralliophila’ squamosa hotspots (Freiwald et al., 2004; Roberts et al., 2006). The (Bayer, 1971), and (Bivona Ant. in Bivona And., 1838: morphotype better Mediterranean Sea hosts a variety of deep-water corals Pseudomurex ruderatus inhabiting soft and hard substrates. Some skeletonized known as Sturany, 1896) res- Lophelia pertusa pectively. The present report documents these findings cnidarians (mostly the scleractinians T1 (Linnaeus, 1758), Madrepora oculata Linnaeus, 1758; (Table 1). Desmophyllum dianthus (Esper, 1794), Javania cail- leti (Duchassaing and Michelotti, 1864), Caryophyllia spp., Dendrophyllia spp., the gorgoniacean Corallium CORALLIOPHILINES FROM MEDITERRANEAN rubrum (Linnaeus, 1758), and several others) may con- DEEP-WATER CORAL SITES tribute to the formation of considerable bioconstruc- ‘Coralliophila’ richardi (Fischer P., 1882) tions at depths in excess of 300 m (Taviani et al., 2005; Freiwald et al., 2009). Such living deep-water coral Murex richardi Fischer P., 1882: 49 assemblages are widespread in the Mediterranean basin Coralliophila lactuca Dall, 1889: 220, pl. 16, fig. 6 as are still-submerged taphocoenoses and outcrops Coralliophila richardi.—Bouchet and Ware´n, 1985: 152, (Taviani et al., 2005).Prooffig. Only 368 Page 2 Proof OnlyTHE NAUTILUS, Vol. 123, No. 3 Alboran Seas (Cecalupo, 1984; Oliverio, 1989; Giusti, 1996; Giannuzzi-Savelli et al., 2003). It also occurs as an Early Pleistocene fossil in deep-water deposits of pre- sumed Sicilian age in southern Italy (Vazzana, 1996). The taxonomic affinities of ‘Coralliophila’ richardi are obscure. The shell morphology of this species is unusual within the subfamily Coralliophilinae, and is shared only with Emozamia licinus (Hedley and Petterd, 1906), a deep-water, western Pacific species. Genetic studies of Mediterranean (this material) and Atlantic specimens will certainly elucidate the taxono- my of this group. The consistent co-occurence of Coralliophila. richardi with the scleractinians Lophelia and Madrepora in Recent and pre-modern assemblages has led to the suggestion that this taxon is likely a predator of one or Figure 1. Map showing station localities discussed in this both corals (e.g., Taviani and Colantoni, 1979). The reg- report. Symbols: h, live Coralliophila richardi (from literature ularly arched shape and dimension of the shell aperture and this paper); , subfossil C. richardi (from literature and of C. richardi seem well adapted for a sedentary position this paper); △, Babelomurex sentix; , ‘Coralliophila’ squa- on a branching stony coral colony such as those of mosa (morphotype ruderatus), •, subfossil ‘Coralliophila’ cf. Madrepora or Lophelia. squamosa (morphotype ruderatus). This hypothesis is supported by the co-occurence of live Lophelia, Madrepora, and C. richardi off Malta, the Remarks: Two living specimens of ‘Coralliophila’ latter fouled by juvenile Lophelia corals (Figures 5–6). F2 À 6 richardi (Figures 2–6) were trawled from Lophelia- Information from Atlantic Ocean specimens further sup- Madrepora coral banks off Malta during the GRUND ports the hypothesis of a strict relationship between C. 2003 mission (see Schembri et al., 2007). Additional pre- richardi and branching deep-water corals. A specimen F7 À 9 modern material (Figures 7À9; most likely glacial Pleisto- was photographed still adhering to the surface of living 0 cene fossils) was collected over many decades of sampling Lophelia on the Galicia Bank (Figure 19) (42 48.37 N, 0 during the CNR-Bologna oceanographic missions of the 11 47.47 W, 880 m depth). Coralliophila richardi has research vessels BANNOCK (see Bouchet and Ware´n, 1985; also been reported from various seamounts in the east- Taviani and Taviani, 1986) and URANIA (this study). ern Atlantic (Oliverio and Gofas, 2006), where it co- Coralliophila richardi (described from the Bay of Bis- occurs with living or dead coral (mostly Madrepora: cay) is the senior synonym of Coralliophila lactuca Dall, Gofas, unpublished notes, and M.T., unpublished 1889 (from off Cuba and Fernandina, Florida in the notes). In the western Atlantic, three live specimens of Western Atlantic: Bouchet and Ware´n, 1985; Taviani C. richardi were collected with living corals on a Lophe- and Taviani, 1986). This amphi-Atlantic species is now lia lithoherm (peak # 160) off St. Augustine, Florida 0 0 known from various sites in the eastern Atlantic Ocean (29 50.9726 N, 79 37.5976 W, in 871–746 m, bottom (Rolan and Pedrosa, 1981; Oliverio and Gofas, 2006) temperature 7.96 C; salinity 35.1) during dive JSL-I- and has been reported living in the Tyrrhenian and 4912 (Chief Scientist J. Reed), 11 Nov. 2005. Table 1. Main attributes of stations yielding the Mediterranean coralliophilines discussed in the text. Start End Sample Start Start Lat. Depth End Long Depth Cruise no. Area Long. N E (m) N End Lat E (m) Species 0 0 0 0 CS73 7 Nameless Urania 36 53.600 13 06.300 695 36 51.800 13 06.300 410 Coralliophila Bank richardi 0 0 0 0 ET95 D21 Tuscan Archip. 43 18.850 09 48.920 582 43 19.450 09 49.080 515 C. richardi 0 0 0 0 GRUND2003 G19 Malta 35 30.47 14 06.27 617 35 30.830 14 06.020 420 C. richardi 0 0 0 0 MARCOS MS43 Malta 35 30.720 14 06.561 607 35 30.803 14 06.511 452 Babelomurex sentix 0 0 0 0 MARCOS MS44 Malta 35 30.506 14 06.230 632 35 31.228 14 05.698 467 B. sentix 0 0 0 0 CORTI CORTI71 Tuscan 43 13.505 09 36.326 369 43 13.682 09 36.260 399 Coralliophila Archipelago squamosa (morphotype ruderatus) 0 0 0 0 M70-1 677 NamelessUrania 36 50.340 13 09.300 544 36 50.340 13 09.390 388 C. squamosa Bank (morphotype Proof Onlyruderatus) Marco Taviani etProof al., 2009 Only Page 3 Figures 2–9. Coralliophila richardi. 2–6. Living Coralliophila richardi from Malta coral banks (st. GRUND 2003-G19). 2–4. Sinuous outer lip accommodates settlement on coral branch. Scale bar = 1 cm. 5–6. Fouling by scleractinian corals (e.g., Lophelia pertusa: A, Vertino, pers, comm.. 2008) and barnacles. Scale bar = 1 cm. 7–9. Specimens from Pleistocene submerged assemblages. 7–8. Strait of Sicily (Station CS73-7). Scale bar = 1 cm. 9. Tuscan Archipelago (Station ET95-D21). Scale bar = 1 cm. Proof Only Page 4 Proof OnlyTHE NAUTILUS, Vol. 123, No. 3 Coralliophila richardi also occurs in the Gulf of Mex- their expanded soft parts (Figures 18–20). Its presumed F18 À 20 ico on live deep-water coral banks. Norem et al. (2008: association with white corals (Oliverio, 1989) is only pl. 27B) illustrated two specimens of C. richardi (identi- based on indirect evidence. C. abbreviata fied as the shallow-water (Lamarck, Coralliophila squamosa 1816)), on live coral from the Lophelia banks of the (Bivona Ant. in Bivona And., Viosca Knoll in circa 315 m depth (dive JSL 4747). 1838) Fusus squamosus Babelomurex sentix (Bayer, 1971) Bivona Ant. in Bivona And., 1838: 14; fig. 22 Coralliophila sentix Bayer, 1971: 189, fig. 49 Murex alucoides Blainville, 1829: 128; pl. 5B fig. 1 (non Latiaxis sentix carcassii Nicolay and Angioy, 1985: 16–18 Murex alucoides Olivi 1792) Fusus lamellosus Babelomurex sentix Philippi, 1836 [ex de Cristofori and Jan Remarks: (originally described ms.]: 204–205, pl. 11 fig. 30 (non Fusus lamellosus Bor- from east of St. Vincent, Lesser Antilles) is a rare amphi- son 1821) Atlantic species seldom found alive (Bayer, 1971; Oliverio Fusus squamulosus Philippi, 1836: 204, pl.
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    UC Davis UC Davis Previously Published Works

    UC Davis UC Davis Previously Published Works Title Molluscan marginalia: Serration at the lip edge in gastropods Permalink https://escholarship.org/uc/item/2mx5c6w9 Journal Journal of Molluscan Studies, 80(3) ISSN 0260-1230 Author Vermeij, GJ Publication Date 2014 DOI 10.1093/mollus/eyu020 Peer reviewed eScholarship.org Powered by the California Digital Library University of California Journal of The Malacological Society of London Molluscan Studies Journal of Molluscan Studies (2014) 80: 326–336. doi:10.1093/mollus/eyu020 Advance Access publication date: 16 April 2014 Molluscan marginalia: serration at the lip edge in gastropods Geerat J. Vermeij Geology Department, University of California, One Shields Avenue, Davis, CA 95616, USA Correspondence: G.J. Vermeij; e-mail: [email protected] Downloaded from (Received 5 September 2013; accepted 10 February 2014) ABSTRACT The shells of many marine gastropods have ventrally directed serrations (serial projections) at the edge http://mollus.oxfordjournals.org/ of the adult outer lip. These poorly studied projections arise as extensions either of external spiral cords or of interspaces between cords. This paper describes taxonomic, phylogenetic, architectural and func- tional aspects of serrations. Cord-associated serrations occur in cerithiids, strombids, the personid Distorsio anus, ocenebrine muricids and some cancellariids. Interspace-associated serrations are phylo- genetically much more widespread, and occur in at least 16 family-level groups. The nature of serration may be taxonomically informative in some fissurellids, littorinids, strombids and costellariids, among other groups. Serrated outer lips occur only in gastropods in which the apex points more backward than upward, but the presence of serrations is not a necessary byproduct of the formation of spiral sculp- tural elements.
  • THE FESTIVUS Page Iii

    THE FESTIVUS Page Iii

    ISSN 0738-9388 ISSN 0738-9388 TH E F E S T I VU S T H E F E S T I VU S A publication of the San Diego Shell Club A publication of the San Diego Shell Club Volume XXXIX September 9, 2007 Supplement Volume XXXIX September 9, 2007 Supplement The Recent Molluscan Fauna of Île Clipperton The Recent Molluscan Fauna of Île Clipperton (Tropical Eastern Pacific) (Tropical Eastern Pacific) Kirstie L. Kaiser Kirstie L. Kaiser US US Vol. XXXIX: Supplement THE FESTIV Page i Vol. XXXIX: Supplement THE FESTIV Page i ISSN 0738-9388 ISSN 0738-9388 THE RECENT MOLLUSCAN FAUNA OF ÎLE CLIPPERTON THE RECENT MOLLUSCAN FAUNA OF ÎLE CLIPPERTON (TROPICAL EASTERN PACIFIC) (TROPICAL EASTERN PACIFIC) KIRSTIE L. KAISER KIRSTIE L. KAISER Research Associate, Santa Barbara Museum of Natural History Research Associate, Santa Barbara Museum of Natural History 2559 Puesta del Sol Road, Santa Barbara, California 93105, USA 2559 Puesta del Sol Road, Santa Barbara, California 93105, USA Email: [email protected] Email: [email protected] September 9, 2007 September 9, 2007 Front Cover: Sunrise at Clipperton. Looking East-SE across the lagoon to Clipperton Rock. Photograph taken by Camille Front Cover: Sunrise at Clipperton. Looking East-SE across the lagoon to Clipperton Rock. Photograph taken by Camille Fresser on 14 January 2005 at 7:49 a.m. Fresser on 14 January 2005 at 7:49 a.m. Front (inside) Cover: Bathymetric chart of Île Clipperton. Copyright: Septième Continent – Jean-Louis Etienne, Expédition Front (inside) Cover: Bathymetric chart of Île Clipperton. Copyright: Septième Continent – Jean-Louis Etienne, Expédition Clipperton.